Issue 4, 2022

Hyperconverged autonomous organic reaction infrastructure (HAORI) driven by SpecSNN, for low dielectric constant polymer research

Abstract

We developed a hyper-converged autonomous organic reaction infrastructure (HAORI) that integrates reactions, characterization, and closed-loop optimization, driven by the Spectrum Spiking Neural Network (SpecSNN) architecture. Most of the previous data-driven autonomous lab platforms in organic reactions lack a time-resolved algorithm, which creates a gap with the optimization progress in a non-negligible time. Driven by SpecSNN, HAORI receives in situ spectroscopic feedback from the automatic synthesis unit and outputs the alternated reaction conditions considering time differences. Compared with the previous autonomous lab systems and architecture, HAORI can achieve higher efficiency and accuracy. We showed a working example in HAORI for a relative optimum reaction to synthesize a low dielectric constant polymer, producing a polymerized product with a DC (ε) from 1.32 to 2.56 and ε0 = 2.46, which is also double validated using ab initio calculations. We believe that the SpeccSNN-HAORI could be one of the next-generation autonomous lab architectures.

Graphical abstract: Hyperconverged autonomous organic reaction infrastructure (HAORI) driven by SpecSNN, for low dielectric constant polymer research

Supplementary files

Article information

Article type
Communication
Submitted
31 May 2022
Accepted
09 Jun 2022
First published
10 Jun 2022
This article is Open Access
Creative Commons BY-NC license

Digital Discovery, 2022,1, 375-381

Hyperconverged autonomous organic reaction infrastructure (HAORI) driven by SpecSNN, for low dielectric constant polymer research

Y. Xu, K. Qiu, S. Xiao, J. Liang, T. He and X. Zhu, Digital Discovery, 2022, 1, 375 DOI: 10.1039/D2DD00048B

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